深海潜水者暴露于水生环境因子的生化效应

Q3 Health Professions
S. Bychkov, D. P. Zverev, I. Klenkov, A. M. Yarkov, Z. M. Israfilov
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引用次数: 0

摘要

的相关性。潜水设备和潜水发射技术不断改进,使个人能够更有效地在水下执行各种任务。电控闭路换气器在我国业余潜水中应用已有20多年的历史。因此,有必要评估佩戴深海潜水设备的深海潜水员的生化效应,以确保其在专业潜水和专门部门结构活动中的安全性和功能性。目的是评估深海潜水员在受控电子闭路换气器中,在类似水平的血管内减压气体形成下,在水生环境因素的影响下的生化效应。在研究中,采用富士DRI-CHEM NX500仪器对6名潜水者在深海潜水前后的9项血液生化指标进行了评价。在控制的电子闭路换气器中,总共进行了14次潜水,深度从60米到100米不等。此外,在每次潜水后,使用具有恒波多普勒效应的超声定位评估血管内减压气体形成水平。结果和讨论。这些研究的结果表明,转氨酶(ALT, AST)和尿素值的显著增加与高压水生环境中氧分压的增加有关。分析结果显示,CNS氧中毒指标与K+离子浓度和葡萄糖水平相关;Na+离子和Cl-离子浓度呈相关关系,尿素和肌酐浓度与血管内减压气体形成水平呈反比关系。值得注意的是,发现血管内减压气体形成水平与中枢神经系统氧中毒之间存在相关性,即中枢神经系统氧中毒的增加导致血管内减压气体形成水平的增加。所研究的血液生化参数均未超过参考值,且个体差异较小,证实了60 m以上深度使用受控电子闭路换气器潜水呼吸器下沉技术的安全性。相关性分析的结果揭示了深海潜水后潜水员体内碳水化合物和水电解质代谢的变化,这是由于氧气分压增加和血管内减压气体形成的作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Biochemical effects in deep-sea divers exposed to aquatic environmental factors
Relevance. Diving equipment and diving launch techniques witness continuous improvements, which allow individuals to more effectively perform various tasks underwater. A controlled electronic closed circuit rebreather has been used in amateur diving in our country for more than 20 years. It is therefore necessary to assess the biochemical effects in deep-sea divers wearing deep sea diving equipment to ensure its safety and functionality in professional diving and the activities of dedicated departmental structures.The objective is to assess the biochemical effects in deep-sea divers in controlled electronic closed circuit rebreather, with a similar level of intravascular decompression gas formation under the influence of aquatic environment factors.Methods. During the study, 9 blood biochemical parameters were evaluated using the Fujifilm DRI-CHEM NX500 apparatus in 6 divers before and after deep-sea descents. In total, 14 diving descents were performed in a controlled electronic closed circuit rebreather to depths from 60 to 100 m. Also, after each diving descent, the level of intravascular decompression gas formation was assessed using ultrasonic location with the constant-wave Doppler effect.Results and Discussion. As a result of these studies, a significant increase in the values of transaminases (ALT, AST) and urea was established, associated with increased partial pressure of oxygen in hyperbaric aquatic environment. The results of the analysis revealed that indicators of the CNS oxygen intoxication correlated with K+ ions concentration and glucose levels; a correlation between Na+ ions and Cl- ions concentration was established, as well as the inverse relationship between the concentration of urea and creatinine and the level of intravascular decompression gas formation. It is noteworthy that a correlation was found between the level of intravascular decompression gas formation and the CNS oxygen intoxication, whereby an increase in the CNS oxygen intoxication leads to increased levels of intravascular decompression gas formation.Conclusion. The studied blood biochemical parameters did not go beyond the reference values and had slight individual variations, which confirms the safety of the technology of descents in diving breathing apparatus with a controlled electronic closed circuit rebreather at depths of more than 60 m. The results of the correlation analysis revealed changes in carbohydrate and water-electrolyte metabolism in the body of divers after a deep-sea descent due to the action of an increased partial pressure of oxygen and intravascular decompression gas formation.
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